配置以太网跨板链路聚合组
链路聚合配置方法及步骤

链路聚合配置方法及步骤1.引言1.1 概述在概述部分,我们将介绍链路聚合配置方法及步骤。
链路聚合是一种将多个物理网络链路合并成一个逻辑链路的技术,它能够提高网络带宽、增强网络可用性和负载均衡能力。
链路聚合配置方法是指一系列实施链路聚合技术的具体步骤和操作。
在本文中,我们将首先简要介绍链路聚合的概念和作用,明确其在网络通信中的重要性和应用场景。
然后,我们将详细讨论链路聚合配置方法,包括配置前的准备工作、配置过程中的关键参数设置和配置完成后的验证步骤。
通过掌握链路聚合配置方法,读者可以了解如何在实际网络环境中配置和应用链路聚合技术。
接下来的章节中,我们将逐步深入探讨链路聚合的相关知识和实际操作。
最后,我们将对文章进行总结,回顾链路聚合配置方法及步骤的关键要点,并展望链路聚合技术在未来网络中的应用前景。
通过本文的阅读,读者将能够全面了解链路聚合配置方法及步骤,为网络管理员和工程师在实际工作中应用和配置链路聚合技术提供指导和帮助。
同时,我们也期待本文能够给读者带来新的思考和启示,促进在网络通信领域的技术创新和发展。
1.2 文章结构文章结构文章的结构是指整篇文章的组织框架和内容安排方式。
一个好的文章结构可以帮助读者更好地理解文章的主题和内容,使文章逻辑清晰,条理有序。
本文按照以下结构进行组织和安排:1. 引言:本部分主要对文章进行导言,引出链路聚合配置方法及步骤的背景和意义,同时介绍文章的结构和目的。
2. 正文:本部分主要对链路聚合的概念和作用进行介绍,然后详细阐述链路聚合配置方法及步骤。
2.1 链路聚合的概念和作用:本小节将解释链路聚合的基本概念,包括什么是链路聚合以及它的作用和优势。
2.2 链路聚合配置方法及步骤:本小节将具体介绍链路聚合的配置方法和步骤。
包括链路聚合的配置目标和原则,以及具体的配置步骤和注意事项,以便读者能够了解如何进行链路聚合的配置。
3. 结论:本部分对全文进行总结,对链路聚合配置方法及步骤的重要性和优势进行强调,并展望未来链路聚合配置方法的发展方向。
LACP

LACP-以太网链路聚合以太网链路聚合是指将多个以太网端口聚合到一起,当作一个端口来处理,并提供更高的带宽和链路安全性。
10.1.1 介绍定义链路聚合组(LAG)将多个物理链路聚合起来,形成一条速率更大的逻辑链路传送数据。
链路聚合的作用域在相邻设备之间,和整个网络结构不相关。
在以太网中,链路和端口一一对应,因此链路聚合也叫做端口聚合。
LACP(Link Aggregation Control Protocol)是IEEE 802.3ad标准中实现链路聚合的控制协议。
通过该协议,不但可以自动实现设备之间端口聚合不需要用户干预,而且还可以检测端口的链路层故障,完成链路的聚合控制。
目的链路聚合组可以实现以下功能:l 增加链路带宽链路聚合组可以为用户提供一种经济的提高链路容量的方法。
通过捆绑多条物理链路,用户不必升级现有设备就能获得更大带宽的数据链路,其容量等于各物理链路容量之和。
聚合模块按照其负荷分担算法将业务流量分配给不同的成员,实现链路级的负荷分担功能。
l 提高链路安全性链路聚合组中,成员互相动态备份。
当某一链路中断时,其它成员能够迅速接替其工作。
链路聚合类型按照聚合类型分类可以分为手工聚合、动态聚合和静态聚合。
MA5680T/MA5683T 支持手工聚合和静态聚合,不支持动态聚合。
l 手工链路聚合由用户手工创建聚合组,增删成员端口时,不运行LACP (Link Aggregation Control Protocol)协议。
端口存在UP和DOWN两种状态,根据端口物理状态(UP和DOWN)来确定是否进行聚合。
手工链路聚合由于没有使用LACP协议,链路两端的设备缺少对聚合进行协商的必要交互,因此对聚合的控制不够准确和有效。
例如,如果用户错误地将物理链路连接到不同的设备上或者同一设备的不能形成聚合的端口上,则系统无法发现。
另外,手工链路聚合只能工作在负荷分担方式,应用也存在一定限制。
l 动态链路聚合动态链路聚合在完全没有人工干预的情况下自动生成聚合,它使设备具有了某些即插即用的特性。
H3C S5500-SI 二层动态链路聚合典型配置

H3C S5500-SI 二层动态链路聚合典型配置一、组网需求:Device A与Device B通过各自的以太网端口GigabitEthernet1/0/1~GigabitEthernet1/0/3相互连接。
通过配置动态链路聚合,实现出负荷在各成员端口间的分担,并采用源MAC地址与目的MAC地址相结合的聚合负载分担模式。
二、组网图:三、配置步骤:1. 配置Device A#配置聚合负载分担模式为源MAC地址与目的MAC地址相结合的方式。
<DeviceA> system-view[DeviceA] link-aggregation load-sharing mode source-mac destination-mac# 创建二层聚合端口1,并配置成动态聚合模式。
[DeviceA] interface bridge-aggregation 1[DeviceA-Bridge-Aggregation1] link-aggregation mode dynamic[DeviceA-Bridge-Aggregation1] quit#分别将端口GigabitEthernet1/0/1至GigabitEthernet1/0/3加入到聚合组1中。
[DeviceA] interface GigabitEthernet 1/0/1[DeviceA-GigabitEthernet1/0/1] port link-aggregation group 1[DeviceA-GigabitEthernet1/0/1] quit[DeviceA] interface GigabitEthernet 1/0/2[DeviceA-GigabitEthernet1/0/2] port link-aggregation group 1[DeviceA-GigabitEthernet1/0/2] quit[DeviceA] interface GigabitEthernet 1/0/3[DeviceA-GigabitEthernet1/0/3] port link-aggregation group 12. 配置Device BDevice B的配置与Device A相似,配置过程略。
H3C交换机_典型配置举例-6W100-以太网链路聚合典型配置举例

1 链路聚合典型配置举例······················································································································· 1-1 1.1 简介 ···················································································································································1-1 1.2 二层链路聚合配置举例 ······················································································································1-1 1.2.1 适用产品和版本 ······················································································································1-1 1.2.2 组网需求 ·································································································································1-1 1.2.3 配置思路 ·································································································································1-1 1.2.4 配置注意事项 ··························································································································1-2 1.2.5 配置步骤 ·································································································································1-2 1.2.6 验证配置 ································································································································1-3 1.2.7 配置文件 ·································································································································1-4 1.3 二层聚合负载分担配置举例···············································································································1-5 1.3.1 适用产品和版本 ······················································································································1-5 1.3.2 组网需求 ·································································································································1-5 1.3.3 配置思路 ·································································································································1-6 1.3.4 配置注意事项 ··························································································································1-6 1.3.5 配置步骤 ·································································································································1-6 1.3.6 验证配置 ·································································································································1-7 1.3.7 配置文件 ·································································································································1-8 1.4 三层链路聚合配置举例 ······················································································································1-9 1.4.1 适用产品和版本 ······················································································································1-9 1.4.2 组网需求 ·······························································································································1-10 1.4.3 配置思路 ·······························································································································1-10 1.4.4 配置注意事项 ························································································································1-10 1.4.5 配置步骤 ·······························································································································1-10 1.4.6 验证配置 ·······························································································································1-11 1.4.7 配置文件 ·······························································································································1-12
H3C交换机配置链路聚合

H3C交换机配置链路聚合H3C交换机配置链路聚合如何?要如何弄H3C交换机配置链路聚合.下面是店铺收集整理的H3C交换机配置链路聚合,希望对大家有帮助~~H3C交换机配置链路聚合创建聚合组1(根据具体情况选择下面两种方式之一)。
l采用静态聚合模式:创建二层聚合接口1system-view[SwitchA] interface bridge-aggregation 1[SwitchA-Bridge-Aggregation1] quitl采用动态聚合模式:创建二层聚合接口,并配置动态聚合模式system-view[SwitchA] interface bridge-aggregation 1[SwitchA-Bridge-Aggregation1] link-aggregation mode dynamic# 将以太网端口GigabitEthernet1/0/1至GigabitEthernet1/0/3加入聚合组1。
[SwitchA] interface GigabitEthernet 1/0/1[SwitchA-GigabitEthernet1/0/1] port link-aggregation group 1[SwitchA-GigabitEthernet1/0/1] interface GigabitEthernet 1/0/2[SwitchA-GigabitEthernet1/0/2] port link-aggregation group 1[SwitchA-GigabitEthernet1/0/2] interface GigabitEthernet 1/0/3[SwitchA-GigabitEthernet1/0/3] port link-aggregation group 1[SwitchA-GigabitEthernet1/0/3] quit# 配置二层聚合接口1所属VLAN,并将该配置批量下发到各成员端口上。
配置Eth-Trunk链路聚合

配置Eth-Trunk链路聚合原理概述在没有使⽤Eth-Trunk 前,百兆以太⽹的双绞线在两个互连的⽹络设备间的带宽仅为100Mbits.若想达到更⾼的数据传输速率,则需要更换传输媒介,使⽤千兆光纤或升级成为千兆以太⽹。
这样的解决⽅案成本较⾼。
如果采⽤Eth-Trunk 技术把多个接⼝捆绑在⼀起,则可以以较低的成本满⾜提⾼接⼝带宽的需求。
例如,把3个100Mbit/s 的全双⼯接⼝捆绑在⼀起,就可以达到300Mbit/s的最⼤带宽。
Eth-Trunk是⼀种捆绑技术,它将多个物理接⼝捆绑成-⼀个逻辑接⼝,这个逻辑接⼝就称为Eth-Trunk接⼝,捆绑在- -起的每个物理接⼝称为成员接⼝。
Eth-Trunk 只能由以太⽹链路构成。
Trunk 的优势在于:■负载分担,在⼀个Eth-Trunk接⼝内,可以实现流量负载分担:■提⾼可靠性,当某个成员接⼝连接的物理链路出现故障时,流量会切换到其他可⽤的链路上,从⽽提⾼整个Trunk链路的可靠性;■增加带宽, Trunk接⼝的总带宽是各成员接⼝带宽之和。
Eth-Trunk在逻辑上把多条物理链路捆绑等同于⼀条逻辑链路,对上层数据透明传输。
所有Eth-Trunk中物理接⼝的参数必须⼀致,Eth-Trunk 链路两端要求⼀致的物理参数有: Eth-Trunk链路两端相连的物理接⼝类型、物理接⼝数量、物理接⼝的速率、物理接⼝的双⼯⽅式以及物理接⼝的流控⽅式。
实验内容本实验模拟企业⽹络环境。
SI 和S2为企业核⼼交换机,PC-1 属于A部门终端设备,PC-2属于B 部门终端设备。
根据企业规划,SI 和S2之间线路原由⼀条光纤线路相连,但出于带宽和冗余⾓度考虑需要对其进⾏升级,可使⽤Eth-Trunk 实现此需求。
实验拓扑配置Eth-Trunk链路聚合的拓扑如图5-3所⽰。
实验编址实验编址见表5-2.M A C地址本实验的MAC地址见表5-3.实验步骤1.基本配置根据实验编址表进⾏相应的基本配置,并使⽤ping命令检测各PC之间的连通性。
华为交换机端口汇聚不同版本配置命令汇总

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[Quidway] interface ethernet1/0/2
[Quidway-Ethernet1/0/2] port link-aggregation group 1
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汇聚组中只有一个端口时,只能通过删除汇聚的方式将端口从汇聚中删除。手工汇聚时端口的LACP协议自动关闭。汇聚组中的端口可能处于两种状态:selected或unselected,只有selected状态的端口可以转发用户报文。
静态汇聚:创建静态汇聚组-->端口加入汇聚组
例:[Quidway] link-aggregation group 1 mode manual
[Quidway] interface Ethernet1/0/1
[Quidway-Ethernet1/0/1] port link-aggregation group 1
[Quidway-Ethernet1/0/1] lacp enable
动态汇聚中,端口的LACP协议处于开启状态。只有速率和双工属性相同、连接到同一个设备、有相同基本配置的端口才能被动态汇聚在一起
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神州数码交换机“链路聚合”配置

神州数码交换机“链路聚合”配置交换机A配置:SwitchA(config)#port-group 1 (创建1个链路聚合组)1代表的是组号,可随意写,但必须与下面的聚合组的组号一致SwitchA(config)#internet ethernet 0/0/1-2(进入端口0/0/1-2)SwitchA(config-if-port-range)#port-group 1mode on/active/passive(手动/主动/被动)(将端口加入链路聚合组并选择模式)SwitchA(config)#internet port-channel 1(进入链路聚合组1)SwitchA(config-if-port-channel)#switchport mode trunk (将链路聚合组开启Trunk模式)交换机B配置:SwitchB(config)#port-group 1 (创建1个链路聚合组)1代表的是组号,可随意写,但必须与下面的聚合组的组号一致SwitchB(config)#internet ethernet 0/0/1-2(进入端口0/0/1-2)SwitchB(config-if-port-range)#port-group 1mode on/active/passive(手动/主动/被动)(将端口加入链路聚合组并选择模式)SwitchB(config)#internet port-channel 1(进入链路聚合组1)SwitchB(config-if-port-channel)#switchport mode trunk (将链路聚合组开启Trunk模式)注:配置链路聚合时先创建组和选择模式后在插线,连接网线后在配置最后一步(开启Trunk模式)二层交换与三层交换做链路聚合时只能选择手动模式(on)二层与二层或三层与三层做链路聚合时,选用主动模式和被动模式,一端为主动“active”时,另一端为被动“passive”交换机A与交换机B配置一致,不同的地方就是选择模式如果做多条链路聚合时可创建多个聚合组。
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配置以太网跨板链路聚合组
跨板链路聚合组(DLAG)可以提高链路可靠性、减少保护倒换的影响面,并提高网络升级的安全性和便捷性。
配置了DLAG后,当主用单板检测到任一端口链路故障、单板离线、单板硬件故障时,设备的交叉单板会将主用单板上的发生故障的业务切换到备用单板,实现业务保护。
创建DLAG
设置两块相同单板上对应端口的主备用关系和恢复模式,实现端口的1+1保护。
前提条件
用户具有“网元操作员”及以上的网管用户权限。
背景信息
DLAG功能使用限制:
∙配置DLAG的设备必须与运行LACP协议的设备对接。
若配置了DLAG的两个设备之间存在中间节点,则该中间节点设备必须支持协议报文的透传。
∙只能在两个相同单板间形成主备保护关系,备用板的端口只能用于保护主用板的端口。
∙一个DLAG最多包括两个端口,且端口号必须一致。
∙备用板不能配置业务(包括以太网业务、LAG、交叉链接、LPT和VCTRUNK端口绑定通道)。
∙备用板所在槽位的带宽必须大于或等于主用板的带宽。
∙同一块以太网数据板上BPS、PPS和DLAG保护不能共存。
∙配置DLAG的端口必须是以太网外部物理端口,同一端口不能同时配置DLAG和LAG。
∙配置DLAG组时,备用端口属性会自动与主用端口保持一致。
∙禁止对需要配置DLAG的外部物理端口自环。
∙如果已创建了以太网业务,需要保证通道时隙的绑定级别和配置交叉业务的级别一致。
∙如果已创建了以太网业务,需要保证需配置DLAG的外部物理端口不能和其它外部物理端口共享同一VCTRUNK端口。
∙DLAG的一个外部物理端口可以对应多个VCTRUNK端口,而一个VCTRUNK端口只能对应DLAG的一个外部物理端口。
不同DLAG的外部物理端口不能配置在同一个VB,因为这样会导致一个VCTRUNK端口对应多个外部物理端口。
操作步骤
1.在网元管理器中单击网元,在功能树中选择“配置 > 以太网跨板链路聚合组管理”。
2.在右侧窗口中单击“新建”,弹出“创建跨板链路聚合组”窗口。
3.设置跨板链路聚合组的属性和端口。
4.单击“确定”完成操作。
5.完成本端网元的DLAG创建后,还需要在对接的对端网元上创建DLAG。
后续处理
1.修改DLAG“恢复模式”属性
修改“恢复模式”,不会影响DLAG中的业务。
2.删除DLAG
∙仅删除某一端设备的DLAG,会触发对端设备进行链路重新协商,此时有DLAG_PROTECT_FAIL 上报,不会影响业务的通断。
∙同时删除对接设备两端的DLAG,不会影响业务的通断。
配置DLAG的系统和端口优先级
DLAG的系统优先级用于和对端比较,系统优先级高的DLAG在LACP协商的过程中处于主导地位。
DLAG没有外部倒换命令,可以通过配置端口优先级来实现外部倒换。
前提条件
∙用户具有“网元操作员”及以上的网管用户权限。
∙已成功创建DLAG。
操作步骤
1.在网元管理器中单击网元,在功能树中选择“配置 > 以太网跨板链路聚合组管理”。
2.在右侧窗口中选择目标DLAG,设置“系统优先级”、“主用端口优先级”和“备用端口优先级”。
说明:
∙默认的优先级为32768,取值范围是0~65535。
∙数值越小,对应的优先级越高。
3.单击“应用”,完成设置。
说明:
如果发现U2000上报DLAG_PROTECT_FAIL告警,表示DLAG保护失败。
后续处理
修改DLAG“优先级”属性会对业务产生下列影响:
∙如果本端DLAG“优先级”高于对端,修改本端“优先级”为更高优先级,不会影响业务。
∙如果本端DLAG“优先级”低于对端,修改本端“优先级”为高于对端优先级,会触发业务倒换,业务瞬断。
查询DLAG的详细信息
可以查询DLAG的负载分担、主备用端口等信息。
前提条件
用户具有“网元监视员”及以上的网管用户权限。
已成功创建DLAG。
操作步骤
1.在网元管理器中选择网元,在功能树中选择“配置 > 以太网跨板链路聚合组管理”。
2.在右侧窗口中单击“查询”,查询已创建DLAG的当前信息。
3.选中一条DLAG,单击右键,选择参数,可根据需要查询相关信息。